敌对环境下的计算机辅助白内障分级

T. Pratap, Priyanka Kokil
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引用次数: 1

摘要

白内障是世界上最常见的致盲原因。早期发现和治疗可以降低白内障发展的风险。由于图像采集技术复杂,现有的计算机辅助白内障分级(CACG)方法的诊断性能往往下降。在实际应用中,常见的视网膜眼底图像像差如噪声、模糊等是不可避免的。为了在噪声和模糊等不利条件下实现对白内障的鲁棒分级,本文提出了一种CACG方法。该方法采用三种深度神经网络变体进行设计。每个变体是微调单独使用良好的,嘈杂的,模糊的视网膜眼底图像,以达到最佳性能。此外,在所提出的CACG方法中加入了输入图像质量检测模块,以检测输入图像失真,然后将输入图像枢轴到所需的深度神经网络变体中。利用高斯噪声和模糊模型来评价所提出的CACG方法的有效性。所提出的CACG方法在对抗条件下表现出优于现有方法的性能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Computer-aided Cataract Grading Under Adversarial Environment
Cataract is the most common cause of blindness in the world. Early detection and treatment can lower the risk of cataract progression. The diagnostic performance of existing computer-aided cataract grading (CACG) methods often deteriorates due to the sophisticated image capture technology. The common retinal fundus image aberrations such as noise and blur are unavoidable in practice. In this paper, a CACG method is proposed to achieve robust cataract grading under adversarial conditions such as noise and blur. The presented CACG method is designed using three deep neural network variants. Each variant is fine-tuned individually using good, noisy, and blur retinal fundus images to achieve optimum performance. Further, the input image quality detection module is incorporated in the proposed CACG method to detect input image distortion and then pivots the input image to the desired deep neural network variant. Gaussian noise and blur models are used to evaluate the effectiveness of the suggested CACG method. The proposed CACG approach exhibits superior performance to existing methods under adversarial conditions.
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